Abstract: An overheating destructive disconnecting method for switch, whereby an operating member applies a first elastic force under normal conditions to enable the movable conductive member contacts a first conductive member and a second conductive member to form a conductive circuit; and a second elastic force to enable the movable conductive member to separate from the first conductive member or the second conductive member. The installation position of the overheating destructive member is used to receive heat energy instead of allowing current to flow thereto. When the overheating destructive member is destructed or deformed under a fail temperature condition, lessening or loss of the force applied by the first elastic force towards the movable conductive member causes the movable conductive member to no longer allow electrical conduction to the first conductive member and the second conductive member, thereby breaking the current-carrying circuit.

Abstract: An overheating destructive disconnecting method for switch, which enables a first elastic force to concurrently apply force to an overheating destructive member and a movable conductive member. Moreover, the force direction causes the movable conductive member to concurrently contact a first conductive member and a second conductive member to form a conductive circuit. A second elastic force acts on the movable conductive member, and the force direction thereof causes the movable conductive member to separate away from the first conductive member or the second conductive member, The overheating destructive member is positioned in a required non-electric transmission path and at a distance from the movable conductive member. When the overheating destructive member is destructed or deformed under a fail temperature condition, the first elastic force is lessened or lost, at which time the second elastic force causes the movable conductive member to change position, thereby breaking the current-carrying circuit.

Abstract: The present invention discloses a method using a bismuth based alloy as power-off element, comprising: a bismuth based alloy is used as the power-off element and a melting point of the bismuth based alloy is between 100° C. to 380° C.; when the power-off element is in an environment below the melting point, two conductive elements are mutually contacted and capable of conducting currents, whereas the power-off element is only receptive of the currents but does not serve as a medium for conducting the currents; when a working temperature of a switch or the socket is close to or exceeds the melting point, the power-off element loses rigidity and enables the two conductive elements to be separated from each other, thereby forming an electrically disconnected state.

Abstract: A heat destructive disconnecting switch comprises a first conductive member, a second conductive member, a movable conductive member, an overheating destructive member, an operating component, and a second elastic member. The movable conductive member conducts electricity to the first conductive member and the second conductive member. The overheating destructive member is formed as an integral body on a limiting member, and a first elastic member is compressed to between a contact member and the overheating destructive member, thereby providing the first elastic member with a first elastic force. The second elastic member is provided with a second elastic force. When the overheating destructive member is destructed due to overheating, the first elastic force is smaller than the second elastic force, causing the movable conductive member to disconnect the first conductive member from the second conductive member to achieve a protective effect from overheating.

Abstract: A rocker switch having a sliding and pressing element, comprising a thermal conductive shell and an overheating destructive element. The sliding and pressing element is applied to the rocker switch. The overheating destructive element can be destroyed at a destructive temperature, and the destructive temperature is between 100° C. to 250° C. The thermal conductive shell is pressed against a rocker conductive element of the rocker switch so as to control the rocker conductive element to be electrically connected or electrically disconnected. When the rocker conductive element is electrically connected, and if the overheating destructive element is overheated and destroyed, the rocker conductive element would be electrically disconnected, thereby realizing protection from overheating. The overheating destructive element is tightly adhered to the thermal conductive shell and is capable of completely absorbing a heat energy generated by a circuit, thus giving the element the advantage of high sensitivity.

Abstract: A heat destructive disconnecting switch, comprises a first conductive member, a second conductive member, a movable conductive member, an overheating destructive member, an operating component, and a second elastic member. The movable conductive member conducts electricity to the first conductive member and the second conductive member. A first elastic member and the second elastic member act on an operating member. The first elastic member is compressed and provided with a first elastic force, and the second elastic member is provided with a second elastic force. When the overheating destructive member is destructed due to overheating, the first elastic force is diminished or vanishes, causing the second elastic force to be larger than the first elastic force. Consequently, the movable conductive member disconnects the current conducting state between the first conductive member and the second conductive member, thereby achieving a protective effect from overheating.

Abstract: A push switch, having a conductive member which includes three integrally formed components: a conductive element, a U-shaped clip, and a conductive cantilever element. An overheating destructive element is provided on the conductive cantilever element, and the overheating destructive element can be destroyed at a destructive temperature, in which the destructive temperature is between 100° C. to 250° C. The push switch has a contact element in contact with the overheating destructive element so as to control the conductive cantilever element to be electrically connected or disconnected. When the conductive cantilever element is electrically connected, and if the overheating destructive element is overheated and destroyed, the conductive cantilever element is driven to become electrically disconnected, thereby achieving protection against overheating. The integral formation and manufacturing of the conductive member has the advantages of being structurally simple and easy to assemble.

Abstract: An overheating destructive switch, comprising: a first conductive element, a second conductive element, a movable conductive element, an overheating destructive element, an operating component, and a second elastic element. The movable conductive element connects the first conductive element and the second conductive element. A first elastic element and the second elastic element act on an operating element. The first elastic element is compressed and has a first elastic force, and the second elastic element has a second elastic force. The first elastic force is greater than the second elastic force under in a normal state. When the overheating destructive element is destroyed due to overheating, the first elastic force is reduced or lost, such that the second elastic force becomes greater than the first elastic force. The movable conductive element is consequently disconnected from the first conductive element and the second conductive element, thus achieving protection against overheating.

Abstract: An overheating destructive disconnecting method for switch, which enables a first elastic force to concurrently apply force to an overheating destructive member and a movable conductive member. Moreover, the force direction causes the movable conductive member to concurrently contact a first conductive member and a second conductive member to form a conductive circuit. A second elastic force acts on the movable conductive member, and the force direction thereof causes the movable conductive member to separate away from the first conductive member or the second conductive member, The overheating destructive member is positioned in a required non-electric transmission path and at a distance from the movable conductive member.

Abstract: A rocker switch having a sliding and pressing element, comprising a thermal conductive shell and an overheating destructive element. The sliding and pressing element is applied to the rocker switch. The overheating destructive element can be destroyed at a destructive temperature, and the destructive temperature is between 100° C. to 250° C. The thermal conductive shell is pressed against a rocker conductive element of the rocker switch so as to control the rocker conductive element to be electrically connected or electrically disconnected. When the rocker conductive element is electrically connected, and if the overheating destructive element is overheated and destroyed, the rocker conductive element would be electrically disconnected, thereby realizing protection from overheating. The overheating destructive element is tightly adhered to the thermal conductive shell and is capable of completely absorbing a heat energy generated by a circuit, thus giving the element the advantage of high sensitivity.

Abstract: A method for using a bismuth based alloy as switch or socket power-off element which is applied to a switch or a socket, and the switch or the socket includes two conductive elements for conducting currents and one power-off element. A bismuth based alloy is used as the power-off element and a melting point of the bismuth based alloy is between 100° C. to 380° C. When the power-off element is in an environment below the melting point, the two conductive elements are mutually contacted and capable of conducting currents, whereas the power-off element is only receptive of the currents but does not serve as a medium for conducting the currents; when a working temperature of the switch or the socket is close to or exceeds the melting point, the power-off element loses rigidity and enables the two conductive elements to be separated from each other, thereby forming an electrically disconnected state.

Abstract: A push switch, having a conductive member which includes three integrally formed components: a conductive element, a U-shaped clip, and a conductive cantilever element. An overheating destructive element is provided on the conductive cantilever element, and the overheating destructive element can be destroyed at a destructive temperature, in which the destructive temperature is between 100° C. to 250° C. The push switch has a contact element in contact with the overheating destructive element so as to control the conductive cantilever element to be electrically connected or disconnected. When the conductive cantilever element is electrically connected, and if the overheating destructive element is overheated and destroyed, the conductive cantilever element is driven to become electrically disconnected, thereby achieving protection against overheating. The integral formation and manufacturing of the conductive member has the advantages of being structurally simple and easy to assemble.

Abstract: A heat destructive disconnecting switch, comprises a first conductive member, a second conductive member, a movable conductive member, an overheating destructive member, an operating component, and a second elastic member. The movable conductive member conducts electricity to the first conductive member and the second conductive member. A first elastic member and the second elastic member act on an operating member. The first elastic member is compressed and provided with a first elastic force, and the second elastic member is provided with a second elastic force. When the overheating destructive member is destructed due to overheating, the first elastic force is diminished or vanishes, causing the second elastic force to be larger than the first elastic force. Consequently, the movable conductive member disconnects the current conducting state between the first conductive member and the second conductive member, thereby achieving a protective effect from overheating.

Abstract: An overheating destructive switch, comprising: a first conductive element, a second conductive element, a movable conductive element, an overheating destructive element, an operating component, and a second elastic element. The movable conductive element connects the first conductive element and the second conductive element. A first elastic element and the second elastic element act on an operating element. The first elastic element is compressed and has a first elastic force, and the second elastic element has a second elastic force. The first elastic force is greater than the second elastic force under in a normal state. When the overheating destructive element is destroyed due to overheating, the first elastic force is reduced or lost, such that the second elastic force becomes greater than the first elastic force. The movable conductive element is consequently disconnected from the first conductive element and the second conductive element, thus achieving protection against overheating.

Abstract: An overheating destructive disconnecting method for switch, whereby an operating member applies a first elastic force under normal conditions to enable the movable conductive member contacts a first conductive member and a second conductive member to form a conductive circuit; and a second elastic force to enable the movable conductive member to separate from the first conductive member or the second conductive member. The installation position of the overheating destructive member is used to receive heat energy instead of allowing current to flow thereto. When the overheating destructive member is destructed or deformed under a fail temperature condition, lessening or loss of the force applied by the first elastic force towards the movable conductive member causes the movable conductive member to no longer allow electrical conduction to the first conductive member and the second conductive member, thereby breaking the current-carrying circuit.

Abstract: A heat destructive disconnecting switch comprises a first conductive member, a second conductive member, a movable conductive member, an overheating destructive member, an operating component, and a second elastic member. The movable conductive member conducts electricity to the first conductive member and the second conductive member. The overheating destructive member is formed as an integral body on a limiting member, and a first elastic member is compressed to between a contact member and the overheating destructive member, thereby providing the first elastic member with a first elastic force. The second elastic member is provided with a second elastic force. When the overheating destructive member is destructed due to overheating, the first elastic force is smaller than the second elastic force, causing the movable conductive member to disconnect the first conductive member from the second conductive member to achieve a protective effect from overheating.

Abstract: An overheating destructive switch, which comprises: a base, a first conductive member, a second conductive member, a movable conductive member, an overheating destructive member, an operating component, and a second elastic member. The movable conductive member connects the first conductive member and the second conductive member, and the operating component comprises an operating member and a first elastic member. The first elastic member is compressed and confined between a contact member and the overheating destructive member, and is provided with a first elastic force. A second elastic force of the second elastic member acts on the operating member. The overheating destructive member is destructed under a fail temperature condition, resulting in lessening or loss of the first elastic force, whereupon the second elastic force forces the operating member to displace, which causes the movable conductive member to separate from the second conductive member to form a power-off state.

Abstract: The present invention provides a heat destructive disconnecting switch, which is composed of a first conductive member, a second conductive member, a movable conductive member, an overheating destructive member, an operating component, and a second elastic member. The movable conductive member enables conducting electricity to the first conductive member and the second conductive member. The overheating destructive member butts against a limiting member, which causes a first elastic member to be compressed to between a contact member and the overheating destructive member, thereby providing the first elastic member with a first elastic force and providing the second elastic member with a second elastic force.

Abstract: A method of plural conductive slots sharing an overheating destructive fixing element is disclosed, including a first conductive element, a second conductive element and an overheating destructive fixing element. The first conductive element includes a front end, a rear end, plural conductive slots, a connection portion and a contact portion. The conductive slots include a front end conductive slot and a rear end conductive slot, between which a control section is defined. The connection portion is disposed on the control section, and the contact portion connects the connection portion. The second conductive element contacts the contact portion by the overheating destructive fixing element, allowing the plural conductive slots to share the overheating destructive fixing element. Furthermore, when any one conductive slot reaches each own limiting working temperature respectively, the overheating destructive fixing element is destructed by reaching a pre-determined temperature.

Abstract: A conductive spring plate fixing element is used to limit a live wire spring plate and a live wire conductive plate from contacting with each other, as well as a neutral wire spring plate and a neutral wire conductive plate from contacting with each other. The width of the limited part of the live wire spring plate is T1, the width of the limited part of the neutral wire spring plate is T2, and the live wire spring plate is separated from the neutral wire spring plate by an insulation distance L. The conductive spring plate fixing element includes a first limiting end and a second limiting end; whereas, the distance between the first limiting end and the second limiting end, M, is equal to T1+T2+L.